PT-141 / Kisspeptin / Pinealon
This combination formulation includes three mechanistically distinct peptides PT-141 (Bremelanotide), Kisspeptin, and Pinealon used in research investigating central melanocortin signaling, reproductive hormone pathways, and gene-expression–related neuroprotection.
Each component has been studied separately for its unique interaction with neural, endocrine, and cellular pathways. The combination enables researchers to explore potential multi-pathway interactions involving CNS signaling, GnRH activation, and DNA-level regulatory mechanisms.
Component Mechanisms
(Summaries of published research — NOT effects of this product.)
PT-141 (Bremelanotide)
- Acts as an agonist at MC3R/MC4R receptors in the central nervous system.
- Engages neural circuits related to motivation, behavior, and autonomic signaling.
- Functions independently of vascular nitric-oxide pathways.
Pinealon (Glu-Asp-Arg)
- A synthetic tripeptide capable of interacting with DNA to influence gene expression.
- Investigated for antioxidant activity, MAPK/ERK pathway modulation, and neuroprotective signaling.
- Associated with support of circadian rhythm regulation, oxidative stress response, and cellular resilience.
Kisspeptin
- Activates KISS1R receptors on hypothalamic GnRH neurons.
- Regulates pulsatile GnRH release, which influences downstream LH and FSH secretion.
- Studied for its role in reproductive axis signaling and neuroendocrine regulation.
Mechanistic Rationale for Combination Research
(Mechanistic synergy only — no physiological/clinical claims.)
Research interest in combining these peptides stems from exploring:
- Central CNS activation (PT-141 + Kisspeptin) interacting with
- Gene-level expression modulation (Pinealon)
This multi-pathway approach may allow researchers to investigate:
- Concurrent CNS melanocortin and GnRH pathway activation
- Interactions between neuroendocrine signaling and cellular stress-response pathways
- Coordinated regulation of circadian, behavioral, hormonal, and oxidative-stress networks